4.6 Article

Principal Polynomial Analysis for Fault Detection and Diagnosis of Industrial Processes

Journal

IEEE ACCESS
Volume 6, Issue -, Pages 52298-52307

Publisher

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/ACCESS.2018.2870140

Keywords

Fault detection and diagnosis; nonlinear processes; process monitoring; principal polynomial analysis

Ask authors/readers for more resources

Real-time process monitoring is crucial to improve the productivity, process safety, and product quality. In this paper, a novel fault detection and diagnosis technique based on a principal polynomial analysis (PPA) is proposed. PPA is a nonlinear modeling technique, which describes the data using a set of flexible principal polynomial components. Compared with the PCA-based methods, PPA is more effective in capturing the intrinsic nonlinear geometry structure of the process data. Moreover, compared with other nonlinear methods, such as kernel-based and neural-networks-based methods, PPA has the appealing features of straightforward out-of-sample extension, volume-preservation, and invertibility. In addition, two new types of fault detection and diagnosis statistics are derived. The effectiveness of the proposed PPA-based monitoring method was verified through its applications to a nonlinear numerical example and an industrial benchmark process. The application results have demonstrated that the proposed method has superior fault detection and diagnosis performance than the conventional PCA-based and kernel PCA-based methods.

Authors

I am an author on this paper
Click your name to claim this paper and add it to your profile.

Reviews

Primary Rating

4.6
Not enough ratings

Secondary Ratings

Novelty
-
Significance
-
Scientific rigor
-
Rate this paper

Recommended

Article Computer Science, Artificial Intelligence

Medical checkup data analysis method based on LiNGAM and its application to nonalcoholic fatty liver disease

Tsuyoshi Uchida, Koichi Fujiwara, Kenichi Nishioji, Masao Kobayashi, Manabu Kano, Yuya Seko, Kanji Yamaguchi, Yoshito Itoh, Hiroshi Kadotani

Summary: This study proposes a new method for analyzing the causal relationship in medical checkup data to discover factors of disease progression. By identifying the causal effects of checkup items on disease progression, the underlying mechanisms of diseases can be revealed. The proposed analysis framework can be applied to various medical checkup data and contribute to the discovery of unknown disease factors.

ARTIFICIAL INTELLIGENCE IN MEDICINE (2022)

Article Engineering, Chemical

Gray-Box Model-Based Predictive Control of Czochralski Process with Successive Model Update

Shota Kato, Sanghong Kim, Masahiko Mizuta, Manabu Kano

Summary: The authors proposed a nonlinear model predictive control method based on the gray-box model and successive linearization for improving the production quality and reducing the cost of silicon ingots in the CZ process. A method for updating the prediction model to handle plant-model mismatch was proposed, and the control simulation results showed that the proposed method outperformed the conventional control method.

JOURNAL OF CHEMICAL ENGINEERING OF JAPAN (2022)

Article Clinical Neurology

R-R interval-based sleep apnea screening by a recurrent neural network in a large clinical polysomnography dataset

Ayako Iwasaki, Koichi Fujiwara, Chikao Nakayama, Yukiyoshi Sumi, Manabu Kano, Tetsuharu Nagamoto, Hiroshi Kadotani

Summary: This study validates a SAS screening methodology using R-R interval and long short-term memory technology, achieving high screening performance in a large clinical dataset. The method can contribute to the realization of an easy-to-use SAS screening system.

CLINICAL NEUROPHYSIOLOGY (2022)

Article Robotics

Development of an epileptic seizure prediction algorithm using R-R intervals with self-attentive autoencoder

Rikumo Ode, Koichi Fujiwara, Miho Miyajima, Toshikata Yamakawa, Manabu Kano, Kazutaka Jin, Nobukazu Nakasato, Yasuko Sawai, Toru Hoshida, Masaki Iwasaki, Yoshiko Murata, Satsuki Watanabe, Yutaka Watanabe, Yoko Suzuki, Motoki Inaji, Naoto Kunii, Satoru Oshino, Hui Ming Khoo, Haruhiko Kishima, Taketoshi Maehara

Summary: This study aims to develop a machine learning algorithm that can predict epileptic seizures in real-time by monitoring R-R interval data. The initial results showed that the algorithm performed well in most patients, with the exception of false positives in specific participants. Further investigation into the causes of false positives and optimization of the algorithm using additional clinical data will be conducted.

ARTIFICIAL LIFE AND ROBOTICS (2023)

Article Computer Science, Interdisciplinary Applications

Stacked supervised Poisson autoencoders-based soft-sensor for defects prediction in steelmaking process

Xinmin Zhang, Manabu Kano, Masahiro Tani

Summary: Soft-sensor SSPAE, a novel data-driven model integrating Poisson regression network layers into the deep autoencoders framework, is proposed. SSPAE can progressively learn quality-related deep features while taking the quality information into account, thereby improving the prediction accuracy. Evaluated with numerical example and real-world data, SSPAE outperforms PLS, SVR, PR, SAE-FCL, and SAE-PR in prediction accuracy.

COMPUTERS & CHEMICAL ENGINEERING (2023)

Review Computer Science, Information Systems

Data-driven soft sensors in blast furnace ironmaking: a survey

Yueyang Luo, Xinmin Zhang, Manabu Kano, Long Deng, Chunjie Yang, Zhihuan Song

Summary: The blast furnace is a highly energy-intensive, highly polluting, and extremely complex reactor in the ironmaking process. Soft sensors play an important role in predicting molten iron quality indices and have attracted increasing attention from researchers. However, there has been no systematic review of data-driven soft sensors in the blast furnace ironmaking process.

FRONTIERS OF INFORMATION TECHNOLOGY & ELECTRONIC ENGINEERING (2023)

Article Pharmacology & Pharmacy

Greedy design space construction based on regression and latent space extraction for pharmaceutical development

Shuichi Tanabe, Tatsuya Muraki, Keita Yaginuma, Sanghong Kim, Manabu Kano

Summary: The implementation of design space is a scientific concept to ensure the quality of drug products for regulatory approval. This study proposes a greedy approach to construct a low-dimensional design space based on a high-dimensional statistical model and observed internal representations, satisfying both comprehensive process understanding and visualization capability.

INTERNATIONAL JOURNAL OF PHARMACEUTICS (2023)

Review Automation & Control Systems

Just-in-time based soft sensors for process industries: A status report and recommendations

Wan Sieng Yeo, Agus Saptoro, Perumal Kumar, Manabu Kano

Summary: Soft sensors are mathematical models that estimate hard-to-measure variables using easy-to-measure variables. Data-driven algorithms are preferred for developing soft sensors due to their profitability and technical feasibility. This paper critically reviews and discusses the existing just-in-time (JIT) based algorithms for developing adaptive soft sensors, highlighting their limitations and considering algorithms for nonlinear and missing data. Recommendations and future directions for JIT-based algorithms are provided.

JOURNAL OF PROCESS CONTROL (2023)

Article Engineering, Environmental

Prediction and optimization of exergetic efficiency of reactive units of a petroleum refinery under uncertainty through artificial neural network-based surrogate modeling

Abdul Samad, Iftikhar Ahmad, Manabu Kano, Hakan Caliskan

Summary: The use of an artificial intelligence model as a surrogate in the online optimization of process conditions of reactive units of a petroleum refinery under uncertainty improves the exergy efficiency of the process. An artificial neural network model, combined with genetic algorithm and particle swarm optimization, achieved efficient process optimization. Sensitivity analysis revealed that the inlet temperatures of reactors were the most influential variables affecting the process exergy efficiency.

PROCESS SAFETY AND ENVIRONMENTAL PROTECTION (2023)

Article Computer Science, Artificial Intelligence

Auditory Feedback of False Heart Rate for Video Game Experience Improvement

Sayaka Ogawa, Koichi Fujiwara, Manabu Kano

Summary: False heart rate feedback can improve player experience. The most effective heart rate feedback pattern is to accelerate by 5bpm per minute.

IEEE TRANSACTIONS ON AFFECTIVE COMPUTING (2023)

Article Engineering, Chemical

Automation on thermal control of blast furnace

Ryosuke Masuda, Yoshinari Hashimoto, Max Mulder, Marinus M. (Rene) van Paassen, Manabu Kano

Summary: In this study, an automatic control system for hot metal temperature (HMT) was developed to achieve accurate process control in a blast furnace. The control algorithm, based on a two-dimensional transient model and non-linear model predictive control (NMPC), successfully reduced the control deviation of HMT compared to conventional manual operation.

DIGITAL CHEMICAL ENGINEERING (2023)

Article Engineering, Biomedical

Heat illness detection with heart rate variability analysis and anomaly detection algorithm

Koichi Fujiwara, Koshi Ota, Shota Saeda, Toshitaka Yamakawa, Takatomi Kubo, Aozora Yamamoto, Yuki Maruno, Manabu Kano

Summary: This study proposes a method for detecting symptoms of heat illness based on heart rate variability analysis. By monitoring abnormal changes in heart rate variability caused by heat stress, the method aims to prevent exacerbation of heat illness. The results of the experiment on 103 volunteers at risk of heat illness development showed a sensitivity of 75% and a false-positive rate of 1.02 times per hour. The proposed method will contribute to receiving appropriate treatment for heat illness before exacerbation, thereby protecting people's health.

BIOMEDICAL SIGNAL PROCESSING AND CONTROL (2024)

Article Thermodynamics

Artificial intelligence based prediction of optimum operating conditions of a plate and fin heat exchanger under uncertainty: A gray-box approach

Jihad Salah Khan, Iftikhar Ahmad, Usman Khan Jadoon, Abdul Samad, Husnain Saghir, Manabu Kano, Hakan Caliskan

Summary: This study proposes a gray-box modeling approach for predicting the optimum mass flow rates of inlet streams in a Plate and Fin Heat Exchanger under uncertainty. By integrating genetic algorithm with a first principle model and replacing it with an artificial neural networks model, a novel gray-box framework is developed, which exhibits better effectiveness and higher outlet temperature than the direct application of the first principle model. The performance of this gray-box model is comparable to the integrated framework of genetic algorithm and first principle model, but with significantly reduced computation time, enhancing the heat exchanger's energy recovery and robustness to cope with uncertainty.

INTERNATIONAL JOURNAL OF HEAT AND MASS TRANSFER (2023)

Proceedings Paper Automation & Control Systems

ProcessBERT: A Pre-trained Language Model for Judging Equivalence of Variable Definitions in Process Models

Shota Kato, Kazuki Kanegami, Manabu Kano

Summary: Digital twins are crucial for digital transformation, and physical models are essential for their realization. This study proposes an automated AI, named AutoPMoB, to facilitate the building of physical models. The study focuses on judging the equivalence of variable definitions, and introduces a method based on ProcessBERT that outperforms the original BERT and SciBERT methods in terms of accuracy.

IFAC PAPERSONLINE (2022)

Article Chemistry, Medicinal

Gray-box Soft Sensor for Water Content Monitoring in Fluidized Bed Granulation

Keita Yaginuma, Shuichi Tanabe, Manabu Kano

Summary: This study evaluated three types of gray-box models in fluidized bed granulation and proposed an assessment method based on Hotelling's T-2 and Q residual, which contributes to decision support in selecting gray-box or white-box models.

CHEMICAL & PHARMACEUTICAL BULLETIN (2022)

No Data Available